Thermodynamic analysis for definition of low-potential heat sources

IF 4.6 Unconventional Resources Pub Date : 2025-01-01 Epub Date: 2024-10-19 DOI:10.1016/j.uncres.2024.100126
Michail Purdin
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Abstract

This study presents a method for defining low-potential energy sources based on thermodynamic analysis. It defines low potential energy sources and presents the results of calculating temperature levels corresponding to the concept of a low potential energy source. A classification of energy sources by thermal level was carried out, including sources of cold, low-potential heat and cold at reduced temperatures, low-potential heat and cold at elevated temperatures, and high-temperature sources. The analysis demonstrates the correspondence between thermodynamic assessment and practical views of many researchers on low-potential energy sources. Conclusions about the influence of external factors on the temperature range for these sources are drawn. It is shown that factors affecting the range of low-potential temperatures include: the temperature potential of consumers, as a reference point for temperature, and the efficiency of local stations for converting heat into work or electricity. Narrowed assessment is presented based on optimal conditions for humans (22 °C), from −90 °C to 203 °C, and extended assessment based on limits of liquid water existence at atmospheric pressure and temperatures (0–100 °C) from −104 °C to 329 °C with an efficiency of heat conversion stations of 38 %.

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定义低电位热源的热力学分析
本研究提出了一种基于热力学分析的低势能源定义方法。它定义了低势能源,并介绍了与低势能源概念相对应的温度水平的计算结果。按照热等级对能源进行了分类,包括冷源、低温下的低势能热源和冷源、高温下的低势能热源和冷源以及高温源。分析表明,热力学评估与许多研究人员对低电位能源的实际看法是一致的。得出了外部因素对这些能源温度范围影响的结论。结果表明,影响低电位温度范围的因素包括:作为温度参考点的消费者的温度电位,以及当地将热量转化为功或电能的发电站的效率。根据人类的最佳条件(22 °C),提出了从-90 °C到203 °C的缩小评估;根据液态水在大气压力和温度(0-100 °C)下的存在极限,提出了从-104 °C到329 °C的扩大评估,热转换站的效率为38%。
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